Academic Year |
2025Year |
School/Graduate School |
School of Engineering |
Lecture Code |
K5314010 |
Subject Classification |
Specialized Education |
Subject Name |
メカニカルシステム制御 |
Subject Name (Katakana) |
メカニカルシステムセイギョ |
Subject Name in English |
Mechanical System Control |
Instructor |
WADA NOBUTAKA |
Instructor (Katakana) |
ワダ ノブタカ |
Campus |
Higashi-Hiroshima |
Semester/Term |
3rd-Year, First Semester, 1Term |
Days, Periods, and Classrooms |
(1T) Weds3-6:ENG 112 |
Lesson Style |
Lecture |
Lesson Style (More Details) |
Face-to-face |
Pc-projector will be used. |
Credits |
2.0 |
Class Hours/Week |
4 |
Language of Instruction |
J
:
Japanese |
Course Level |
4
:
Undergraduate Advanced
|
Course Area(Area) |
25
:
Science and Technology |
Course Area(Discipline) |
09
:
Mechanical Engineering |
Eligible Students |
|
Keywords |
digital control, stabilization, optimal control |
Special Subject for Teacher Education |
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Special Subject |
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Class Status within Educational Program (Applicable only to targeted subjects for undergraduate students) | |
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Criterion referenced Evaluation (Applicable only to targeted subjects for undergraduate students) | Program of Mechanical Systems Engineering (Abilities and Skills) ・Acquring basis of mechanical system engineering steadily and developing the applied skill.
Program of Material Processing (Abilities and Skills) ・Acquiring basis of mechanical system, material creation and processing engineering steadily, and being able to apply
Program of Energy Transform Engineering (Abilities and Skills) ・Acquring basis of mechanical system engineering steadily and developing the applied skill. |
Class Objectives /Class Outline |
The purpose of this series of lecture is to provide several fundamental tools for analyzing and synthesizing digital control systems. |
Class Schedule |
1. Introduction, State-space model 2. Linear approximation of a nonlinear state-space model, Solution of a state equation 3. Digital control system, Discrete-time state equation 4. Solution of a discrete-time state equation, Pulse-transfer operator 5. z-transformation 6. Stability of linear systems 7. Lyapunov stability 8. Controllability and observability 9. State feedback control 10. LQ optimal control 11. Output feedback control 12. Servo control 13. Fundamentals of LMIs 14. Control system design via LMIs 1 15. Control system design via LMIs 2 |
Text/Reference Books,etc. |
The handout will be distributed at each lecture. |
PC or AV used in Class,etc. |
Handouts |
(More Details) |
PC-projector |
Learning techniques to be incorporated |
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Suggestions on Preparation and Review |
Students must have fundamental knowledge of the linear control theory (Control Engineering I, II). |
Requirements |
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Grading Method |
The grade will be assigned based on the reports (40%) and the final examination (60%). |
Practical Experience |
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Summary of Practical Experience and Class Contents based on it |
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Message |
|
Other |
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Please fill in the class improvement questionnaire which is carried out on all classes. Instructors will reflect on your feedback and utilize the information for improving their teaching. |